A crucial role of Nrf2 has been demonstrated in protection of dopaminergic neurons against oxidative stress, detoxification of mitochondrial complex I inhibitors and down-regulation of genes involved in the brain innate immune response.
This test reflects on the metabolism of aromatic complexes in the human organism and it is a demonstration of the long ago established fact that HA is the end product of the detoxification of aromatic complexes in human individuals.
However, the function of p53 in the generation and detoxification of ROS is complex and can have opposing effects.
For example, this should improve the efficiency of resistance diagnosis, the knowledge of complex detoxification pathways associated with NTSR and the capacity to design successful treatment strategies for multiple targets.
The important role of the liver in detoxification processes involves a series of complex events that include uptake across the sinusoidal membrane of hepatocytes (phase 0), intracellular biotransformation (phases I and II), and extrusion across the canalicular membrane into bile (phase IIIa) or, alternatively, across the sinusoidal membrane back into the blood (phase IIIb).
The liver performs a panoply of complex activities coordinating metabolic, immunologic and detoxification processes.
Laccase enzymes are widespread among plants, fungi and bacteria, and have various biological functions, such as degradation of complex polymers (lignin, humic acid), lignification, detoxification, pathogenicity, morphogenesis, sporulation, polymerization of melanin and spore coat resistance (Strong & Claus 2011).
It separately regulates the expression of OXPHOS subunits, leading to a rapid modulation of mitochondrial functionality by integrating the regulation of complex IV activity with coupling efficiency and ROS detoxification processes.
For example, SFA1 which is involved in the detoxification of formaldehyde and long-chain and complex alcohols formation [ 24, 27] displayed more than a 15-fold increase in mRNA abundance in YJS329.
As a foliar pathogen, C. zeae-maydis presumably produces a suite of enzymes during pathogenesis to facilitate the utilization of complex carbon sources, acquisition of nitrogen from non-preferred sources, and detoxification and/or avoidance of host resistance responses.
